Can anyone help me with the fprintf command? I need to make a table with the given information. I put my code below.

    clear all
    close all
    clc
    format short

    %Garrett Froula
    %BsE 411
    %Tire Performance Code

    %Front Tire Specifications
    SAF=17455; %Static Axle Load Front Axle (lbs)
    bf=16.5;  %Unloaded tire section width front tire (in)
    Df=62.6;  %Unloaded overall tire diameter front tire (in)
    hf=14.025;  %Tire section height front tire (in)
    sF=28.4; %static loaded radius of front tire (in)
    deltaf=(Df/2)-sF;  %Tire deflection front tire (in)
    front_t=4; %number of tires

    %Rear Tire Specifications
    SAR=22575; %Static Axle Load Rear Axle (lbs)
    br=18.9;  %Unloaded tire section width rear tire (in)
    Dr=80.8;  %Unloaded overall tire diameter rear tire (in)
    hr=15.12;  %Tire section height rear tire (in)
    sR=37; %static loaded radius of rear tire (in)
    deltar=(Dr/2)-sR;  %Tire deflection rear tire (in)
    rear_t=6; %number of tires

    %Other variables
    ci=174.045;  %Cone Index (psi)
    dbh=20.5;  %Draw Bar height from ground (in)
    L=118.9; %Wheel Base Length from front tire to rear tire (in)
    Wstatic=40030;  %Tractor Wegith (lbs)
    d=1.75*dbh;  %Calculation of distance from center of rear tire to end of draw bar (in)
    b=72*(pi/180); %beta angle to drawbar pull
    t=18*(pi/180); %alpha angle to drawbar pull
    n='N/A'; %for chart purposes
    slip=.1:.01:.2; %slip range of 1% to 20% in increments of 0.01

    Wstf=SAF/4;  %Static Tire Weight Per Tire Front Four Tires (lb)
    Wstr=SAR/6;  %Static Tire Weight Per Tire Rear Six Tires (lb)

    c=(SAF*L)/(Wstatic);  %Calculation of length from center of Mass to rear axle (in)

    Wdf=Wstf;  %Assign dynamic weight for front tire for first iteration (lb)
    Wdr=Wstr;  %Assign dynamic weight for rear tire for first iteration

    Wr=Wdr;
    Wf=Wdf;

    Wdf=20; Wdr=20; %initialization for first iteration

    fprintf('\n   Tire  Slip   Static Tire      Dynamic Tire     Dimensionless     Net Traction       Gross Traction      Tractive Efficiency \n')
    fprintf('\n          %%      Force             Force           Ratio Bn         Force NT           Force GT                %%TE\n')

    for i=length(slip)
        s=slip(i);

        %This while looop will keep iterating until the new dynamic weight is within 1 lb of the old dynamic weight
        while abs(Wf-Wdf)>1 & abs(Wr-Wdr)>1;
            Wr=Wdr;
            Wf=Wdf;

            if Wdf<=0;

                disp('error'); %This means from tires have come off the ground

            end

            Bnf=((ci*bf*Df)./Wf)*((1+5*(deltaf/hf))/(1+3*(bf./Df)));  %ASAE Dimensionless ratio front tire
            Bnr=((ci*br*Dr)./Wr)*((1+5*(deltar/hr))/(1+3*(br./Dr)));  %ASAE Dimensionless ratio rear tire

            NTf=Wf.*(0.88.*(1-exp(-0.1.*Bnf)).*(1-exp(-7.5.*slip))-(1./Bnf)-...
                ((0.5.*slip)./sqrt(Bnf)));  %ASAE Net Traction front tire (lbs)
            NTr=Wr.*(0.88.*(1-exp(-0.1.*Bnr)).*(1-exp(-7.5.*slip))-(1./Bnr)-...
                ((0.5*slip)./sqrt(Bnr)));  %ASAE Net Traction rear tire (lbs)

            Tr=NTr*rear_t; %Net Traction rear axle (on FBD)
            Tf=NTf*front_t; %Net Traction front axle (on FBD)

            Px=(NTf.*4)+(NTr.*6);  %Draw Bar Pull in x-direction (lbs) (FBD eq 2)
            Py=(Px./sin(b))*sin(t);  %Draw Bar Pull in y-direction (lbs) (FBD eq 3)
            P=sqrt(Px.^2+Py.^2);  %Draw Bar Pull at 18 degrees from horizontal (lbs) (FBD eq 4)

            Wdf=(((Wstatic*c)-(Py.*d)-(Px.*dbh))./(L))./front_t;  %Dynamic weight for front tire (lbs) (FBD eq 5)
            Wdr=(Wstatic+Py-Wf*4)./rear_t; %Dynamic weight for rear tire (lbs) (FBD eq 6)

            Wdar=Wdr*rear_t; %rear axle dynamic weight
            Wdaf=Wdf*front_t; %front axle dynamic weight
            Wdat=Wdar+Wdaf; %Total axle dynamic weight

        end

        GTf=Wdf.*(0.88.*(1-exp(-0.1.*Bnf)).*(1-exp(-7.5.*slip))+0.04);  %ASAE Gross traction for front tire (lbs)
        GTr=Wdr.*(0.88.*(1-exp(-0.1.*Bnr)).*(1-exp(-7.5.*slip))+0.04);  %ASAE Gross traction for rear tire (lbs)

        GTfa=GTf*front_t; %Gross traction for front axle
        GTra=GTr*rear_t; %Gross traction for rear axle
        GTta=GTfa+GTra; %Total gross traction

        TEf=((1-slip)*(NTf/GTf))*100;  %ASAE Tractive efficiency front tire (%)
        TEr=((1-slip)*(NTr/GTr))*100;  %ASAE Tractive efficiency rear tire (%)

        TEfa=((1-slip)*(Tf/GTfa))*100;  %Tractive efficiency front axle (%)
        TEra=((1-slip)*(Tr/GTra))*100;  %Tractive efficiency rear axle (%)
        TEtotal=((1-slip)*(Px/(GTfa+GTra)))*100; %Tractive efficiency total

        fprintf('\n Front   %4.1f       %4.1f\n', (100*slip), Wf)
        fprintf('\n Rear     %4.1f      %4.1f\n', (100*slip), Wr)
    end

[Stephen23]

Lots of volunteers here are happy to help you with fprintf command. But you have to tell them what you want... do you have a question? Did you try something and it didn't work as expected? Are you missing an example of how to do something? We struggle to read peoples minds, so when you actually tell us what the problem is then we can help you.